# import magrittr for piping
library(magrittr)
library(readr)
library(dplyr)
library(plotly)
#read in data to analyze
atp_table <- read_csv("atp_tennis.csv")
Rows: 25362 Columns: 17── Column specification ──────────────────────────────────────────────────────────────────────────────────────
Delimiter: ","
chr  (9): Tournament, Series, Court, Surface, Round, Player_1, Player_2, Winner, score
dbl  (7): Best of, Rank_1, Rank_2, Pts_1, Pts_2, Odd_1, Odd_2
date (1): Date
ℹ Use `spec()` to retrieve the full column specification for this data.
ℹ Specify the column types or set `show_col_types = FALSE` to quiet this message.
head(atp_table)
NA
library(ggplot2)
library(plotly)
time_data <- c(15/60,15/60,20/60,10/60,30/60,30/60,
               10/60,5,3.5,7.75,5.5,7.5)
date_data <- c("8/29/2023", "9/7/2023",
               "8/29/2023", "9/3/2023",
               "9/17/2023", "9/24/2023",
               "9/10/2023", "9/24/2023",
               "10/1/2023", "10/8/2023",
               "10/9/2023", "10/10/2023")
duty <- c("starting Github repository",
          "starting Github repository",
          "Selecting Dataset",
          "Selecting Dataset",
          "Describing Dataset",
          "Describing Dataset",
          "Starting R file",
          paste("Making Shiny App",
            "histogram", "word cloud", sep = "\n"),
          paste("Making Shiny App", "line graph"),
          paste("Making Shiny App", "network", 
            sep = "\n"),
          paste("Making Shiny App", "network",
            "map testing", "documentation", 
            sep = "\n"),
          paste("Making Shiny App", "network",
            "extra data", "documentation",
            sep = "\n"))
date_data %<>% as.Date(format="%m/%d/%Y")
time_log_data <- data.frame(time_data, date_data, duty)
time_log_data <- time_log_data[order(time_log_data$date_data),]
p <- ggplot(time_log_data, aes(y=time_data, x=date_data, label = duty))+
  geom_bar(stat = "identity", fill = "lightgreen")+
  xlab("Date")+
  ylab("Hrs Spent") + 
  scale_x_date(date_breaks = "7 day")+
  scale_x_date(date_minor_breaks = "1 day")
Scale for x is already present.
Adding another scale for x, which will replace the existing scale.
ggplotly(p)
#plotly tests
atp_dated <- atp_table %>% filter(Date < "2013-01-01")
plot_ly(atp_dated, x = ~Rank_1, y = ~Rank_2, 
        text = ~Player_1, type = 'scatter', mode = 'markers',
        marker = list(size = ~Odd_2, opacity = 0.5))
player_name = "Djokovic N."
atp_table_swapped <- atp_table %>% rename(Player_1 = Player_2, Player_2 = Player_1)
atp_combined <- rbind(atp_table, atp_table_swapped)
atp_combined <- atp_combined[order(atp_combined$Date),]
opponents <- atp_combined %>%
  filter(Player_1 == player_name) %>%
  select(Player_2) %>%
  table(dnn = "name")
opponents %<>% as.data.frame()
opponents <- opponents[rev(order(opponents$Freq)),]
fig <- plot_ly(opponents, x = ~name, y = ~Freq, type = 'bar')
fig
player_results = list()
players = c("Djokovic N.", "Nadal R.")
for(player in players){
  # grab the relevant player ratings
  atp_player_result <- atp_combined %>%
    filter(Player_1 == player) %>%
    # grab names ranks and dates
    select(Rank_1 | Rank_2 | Date | Player_1 | Player_2)
  # add the player result to the list
  player_results[[length(player_results)+1]] = atp_player_result
}
ggplot(bind_rows(player_results, .id="data_frame"),
       aes(x=Date, y=Rank_1, group = Player_1)) +
  geom_line(aes(color = Player_1)) +
  scale_y_reverse() +
  labs(y = "Ranking", title = "Player Ranking over Time")

library(ggplot2)

ggplot(head(opponents,10), aes(x=name, y = Freq))
library(shiny)
player_selections <<- data.frame( player = 
                                    c(atp_table$Player_1, 
                                      atp_table$Player_2)) %>%
  # used https://www.rdocumentation.org/packages/base/versions/3.6.2/topics/table
  # need the column name to be the same every time
  table(dnn = list("name")) %>%
  as.data.frame(responseName = "freq")

# https://stackoverflow.com/questions/62716572/selectinput-category-selection
# Stéphane Laurent
# https://shiny.posit.co/r/reference/shiny/latest/updateselectinput
# for context (lets me know onInitialize is running as JavaScript)
onInitialize <- "
function(){
  var select = this.$input[0];
  this.$dropdown_content.on('mousedown', function(e){
    e.preventDefault(); 
    return false;
  }).on('click', '.optgroup-header', function(e){
    var options = $(this).parent().find('.option');
    var items = [];
    options.each(function(i, opt){items.push($(opt).data('value'));});
    var selections = select.selectize.items;
    select.selectize.setValue(items.concat(selections));
  });
}
"

shinyApp(
  ui = fluidPage(
    selectizeInput("state", "Choose a player:",
                   player_selections,
                   multiple = TRUE, 
                   options = list(
                     onInitialize = I(onInitialize)
                   )
    )
  ),
  server = function(input, output){}
)
library(GGally)
library(igraph)
player = "Djokovic N." 
    atp_player_result <- atp_combined %>%
      filter(Player_1 == player) %>%
      # grab names ranks and dates
      select(Player_2)
    #make a data frame with the frequency of occurrences
    network_table_df <- atp_player_result %>%
      table(dnn = list("name")) %>%
      as.data.frame(responseName = "freq")
    #order by frequency
    network_table_df <- network_table_df[order(network_table_df$freq, decreasing = TRUE),]
    simple_edge_df <- data.frame(
      from = rep(player,length(network_table_df$name)),
      to = network_table_df$name,
      weight = network_table_df$freq
    )
    
    net <- graph_from_data_frame(simple_edge_df)
    p <- ggnet2(simplify(net), label = TRUE)
    ggplotly(p) %>% layout(xaxis = list(visible = FALSE),
                           yaxis = list(visible = FALSE))
simplify(net)
rep(player,length(atp_player_result$Player_2))

lets see if we can make

#read in data to analyze
old_atp_df <- read_csv("Tennis Data.csv")
head(old_atp_df)
library(dplyr)
#old_tournament_locations <- old_atp_df[!duplicated(old_atp_df$Tournament),]
new_tournaments <- atp_table[!duplicated(atp_table$Tournament), "Tournament"]
#new_tournaments$Tournament %in%old_tournament_locations$Tournament
#old_tournament_locations$Tournament %in% new_tournaments$Tournament
new_tournaments
library(maps)
#map.cities(old_tournament_locations$Location)
world.cities
#old_tournament_locations$Location[which(old_tournament_locations$Location %in% world.cities$name)]

world.cities[which(world.cities$name %in% old_tournament_locations$Location),]
locations <- world.cities[which(world.cities$name %in% old_tournament_locations$Location),]
fig <- plot_geo(locations, lat = ~lat, lon = ~long)

fig <- fig %>% add_markers(

    text = ~paste(airport, city, state, paste("Arrivals:", cnt), sep = "<br />"),

    color = ~cnt, symbol = I("square"), size = I(8), hoverinfo = "text"

  )
fig

result <- merge(old_tournament_locations,
      world.cities, by.x = "Location", by.y = "name") 

#with(world.data, lat[match(old_tournament_locations$Location, name])
player = "Djokovic N."
tournament = atp_combined$Tournament[1]
atp_player_result <- atp_combined %>%
      filter(Player_1 == player & Tournament == tournament) %>%
      select(Player_2)
atp_player_result

network_table_df <- atp_player_result %>%
      table(dnn = list("name")) %>%
      as.data.frame(responseName = "freq")
    network_table_df <- network_table_df[order(network_table_df$freq, decreasing = TRUE),]
    
edge_df <- data.frame(
      from = rep(player,length(network_table_df$name)),
      to = network_table_df$name,
      weight = network_table_df$freq
    )

net <- graph_from_data_frame(edge_df)
    p <- ggnet2(simplify(net), size = 3, label = TRUE)
    p <- ggplotly(p) %>% layout(xaxis = list(visible = FALSE),
                                yaxis = list(visible = FALSE))
    p
    

old_atp_df$
---
title: "Individual Project"
output: html_notebook
author: Spencer Skidmore
---



```{r}
# import magrittr for piping
library(magrittr)
library(readr)
library(dplyr)
library(plotly)
#read in data to analyze
atp_table <- read_csv("atp_tennis.csv")
head(atp_table)

```
```{r}
library(ggplot2)
library(plotly)
time_data <- c(15/60,15/60,20/60,10/60,30/60,30/60,
               10/60,5,3.5,7.75,5.5,7.5)
date_data <- c("8/29/2023", "9/7/2023",
               "8/29/2023", "9/3/2023",
               "9/17/2023", "9/24/2023",
               "9/10/2023", "9/24/2023",
               "10/1/2023", "10/8/2023",
               "10/9/2023", "10/10/2023")
duty <- c("starting Github repository",
          "starting Github repository",
          "Selecting Dataset",
          "Selecting Dataset",
          "Describing Dataset",
          "Describing Dataset",
          "Starting R file",
          paste("Making Shiny App",
            "histogram", "word cloud", sep = "\n"),
          paste("Making Shiny App", "line graph"),
          paste("Making Shiny App", "network", 
            sep = "\n"),
          paste("Making Shiny App", "network",
            "map testing", "documentation", 
            sep = "\n"),
          paste("Making Shiny App", "network",
            "extra data", "documentation",
            sep = "\n"))
date_data %<>% as.Date(format="%m/%d/%Y")
time_log_data <- data.frame(time_data, date_data, duty)
time_log_data <- time_log_data[order(time_log_data$date_data),]
p <- ggplot(time_log_data, aes(y=time_data, x=date_data, label = duty))+
  geom_bar(stat = "identity", fill = "lightgreen")+
  xlab("Date")+
  ylab("Hrs Spent") + 
  scale_x_date(date_breaks = "7 day")+
  scale_x_date(date_minor_breaks = "1 day")
ggplotly(p)
```

```{r}
#plotly tests
atp_dated <- atp_table %>% filter(Date < "2013-01-01")
plot_ly(atp_dated, x = ~Rank_1, y = ~Rank_2, 
        text = ~Player_1, type = 'scatter', mode = 'markers',
        marker = list(size = ~Odd_2, opacity = 0.5))
```

```{r}
player_name = "Djokovic N."
atp_table_swapped <- atp_table %>% rename(Player_1 = Player_2, Player_2 = Player_1)
atp_combined <- rbind(atp_table, atp_table_swapped)
atp_combined <- atp_combined[order(atp_combined$Date),]
opponents <- atp_combined %>%
  filter(Player_1 == player_name) %>%
  select(Player_2) %>%
  table(dnn = "name")
opponents %<>% as.data.frame()
opponents <- opponents[rev(order(opponents$Freq)),]
fig <- plot_ly(opponents, x = ~name, y = ~Freq, type = 'bar')
fig
```
```{r}
player_results = list()
players = c("Djokovic N.", "Nadal R.")
for(player in players){
  # grab the relevant player ratings
  atp_player_result <- atp_combined %>%
    filter(Player_1 == player) %>%
    # grab names ranks and dates
    select(Rank_1 | Rank_2 | Date | Player_1 | Player_2)
  # add the player result to the list
  player_results[[length(player_results)+1]] = atp_player_result
}
ggplot(bind_rows(player_results, .id="data_frame"),
       aes(x=Date, y=Rank_1, group = Player_1)) +
  geom_line(aes(color = Player_1)) +
  scale_y_reverse() +
  labs(y = "Ranking", title = "Player Ranking over Time")

```

```{r}

library(ggplot2)

ggplot(head(opponents,10), aes(x=name, y = Freq))
```

```{r}
library(shiny)
player_selections <<- data.frame( player = 
                                    c(atp_table$Player_1, 
                                      atp_table$Player_2)) %>%
  # used https://www.rdocumentation.org/packages/base/versions/3.6.2/topics/table
  # need the column name to be the same every time
  table(dnn = list("name")) %>%
  as.data.frame(responseName = "freq")

# https://stackoverflow.com/questions/62716572/selectinput-category-selection
# Stéphane Laurent
# https://shiny.posit.co/r/reference/shiny/latest/updateselectinput
# for context (lets me know onInitialize is running as JavaScript)
onInitialize <- "
function(){
  var select = this.$input[0];
  this.$dropdown_content.on('mousedown', function(e){
    e.preventDefault(); 
    return false;
  }).on('click', '.optgroup-header', function(e){
    var options = $(this).parent().find('.option');
    var items = [];
    options.each(function(i, opt){items.push($(opt).data('value'));});
    var selections = select.selectize.items;
    select.selectize.setValue(items.concat(selections));
  });
}
"

shinyApp(
  ui = fluidPage(
    selectizeInput("state", "Choose a player:",
                   player_selections,
                   multiple = TRUE, 
                   options = list(
                     onInitialize = I(onInitialize)
                   )
    )
  ),
  server = function(input, output){}
)
```

```{r}
library(GGally)
library(igraph)
player = "Djokovic N." 
    atp_player_result <- atp_combined %>%
      filter(Player_1 == player) %>%
      # grab names ranks and dates
      select(Player_2)
    #make a data frame with the frequency of occurrences
    network_table_df <- atp_player_result %>%
      table(dnn = list("name")) %>%
      as.data.frame(responseName = "freq")
    #order by frequency
    network_table_df <- network_table_df[order(network_table_df$freq, decreasing = TRUE),]
    simple_edge_df <- data.frame(
      from = rep(player,length(network_table_df$name)),
      to = network_table_df$name,
      weight = network_table_df$freq
    )
    
    net <- graph_from_data_frame(simple_edge_df)
    p <- ggnet2(simplify(net), label = TRUE)
    ggplotly(p) %>% layout(xaxis = list(visible = FALSE),
                           yaxis = list(visible = FALSE))
```
```{r}
simplify(net)
```
```{r}
rep(player,length(atp_player_result$Player_2))
```
lets see if we can make
```{r}
#read in data to analyze
old_atp_df <- read_csv("Tennis Data.csv")
head(old_atp_df)
```
```{r}
library(dplyr)
#old_tournament_locations <- old_atp_df[!duplicated(old_atp_df$Tournament),]
new_tournaments <- atp_table[!duplicated(atp_table$Tournament), "Tournament"]
#new_tournaments$Tournament %in%old_tournament_locations$Tournament
#old_tournament_locations$Tournament %in% new_tournaments$Tournament
new_tournaments
```
```{r}
library(maps)
#map.cities(old_tournament_locations$Location)
world.cities
#old_tournament_locations$Location[which(old_tournament_locations$Location %in% world.cities$name)]

world.cities[which(world.cities$name %in% old_tournament_locations$Location),]

```
```{r}
locations <- world.cities[which(world.cities$name %in% old_tournament_locations$Location),]
fig <- plot_geo(locations, lat = ~lat, lon = ~long)

fig <- fig %>% add_markers(

    text = ~paste(airport, city, state, paste("Arrivals:", cnt), sep = "<br />"),

    color = ~cnt, symbol = I("square"), size = I(8), hoverinfo = "text"

  )
fig
```
```{r}

result <- merge(old_tournament_locations,
      world.cities, by.x = "Location", by.y = "name") 

#with(world.data, lat[match(old_tournament_locations$Location, name])
```

```{r}
player = "Djokovic N."
tournament = atp_combined$Tournament[1]
atp_player_result <- atp_combined %>%
      filter(Player_1 == player & Tournament == tournament) %>%
      select(Player_2)
atp_player_result

network_table_df <- atp_player_result %>%
      table(dnn = list("name")) %>%
      as.data.frame(responseName = "freq")
    network_table_df <- network_table_df[order(network_table_df$freq, decreasing = TRUE),]
    
edge_df <- data.frame(
      from = rep(player,length(network_table_df$name)),
      to = network_table_df$name,
      weight = network_table_df$freq
    )

net <- graph_from_data_frame(edge_df)
    p <- ggnet2(simplify(net), size = 3, label = TRUE)
    p <- ggplotly(p) %>% layout(xaxis = list(visible = FALSE),
                                yaxis = list(visible = FALSE))
    p
    
```
```{r}

old_atp_df$
```


